Tissue-like multicellular development triggered by mechanical compression in archaea

The advent of clonal multicellularity is a critical evolutionary milestone, seen often in eukaryotes, rarely in bacteria, and only once in archaea. We show that uniaxial compression induces clonal multicellularity in haloarchaea, forming tissue-like structures. These archaeal tissues are mechanically and molecularly distinct from their unicellular lifestyle, mimicking several eukaryotic features. Archaeal tissues undergo a multinucleate stage followed by tubulin-independent cellularization, orchestrated by active membrane tension at a critical cell size. After cellularization, tissue junction elasticity becomes akin to that of animal tissues, giving rise to two cell types-peripheral (Per) and central scutoid (Scu) cells-with distinct actin and protein glycosylation polarity patterns. Our findings highlight the potential convergent evolution of a biophysical mechanism in the emergence of multicellular systems across domains of life.

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Publication Details

Journal
Science
Published
2025-04-04
DOI
https://doi.org/10.1126/science.adu0047
Citations
13
Primary Topic
Bacterial biofilms and quorum sensing
Type
article
Field-Weighted Citation Impact
10.48
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article

Tissue-like multicellular development triggered by mechanical compression in archaea

Vikram Alva, Luiz Thibério Rangel, Elad Stolovicki, John Mallon et al.
13 citations
Science
Bacterial biofilms and quorum sensing
10.48
article

Tissue-like multicellular development triggered by mechanical compression in archaea

Vikram Alva, Luiz Thibério Rangel, Elad Stolovicki, John Mallon, Theopi Rados, Tanmay A. M. Bharat, Lars D. Renner, Pedro Escudeiro, Sebastián Kadener, Katherine Andre, Andriko von Kügelgen, Yoav Soen, Sinead Nguyen, Vera Thiel, Ido Caspy, Olivia S. Leland, Inés Lucía Patop
article en
13 citations

Abstract

The advent of clonal multicellularity is a critical evolutionary milestone, seen often in eukaryotes, rarely in bacteria, and only once in archaea. We show that uniaxial compression induces clonal multicellularity in haloarchaea, forming tissue-like structures. These archaeal tissues are mechanically and molecularly distinct from their unicellular lifestyle, mimicking several eukaryotic features. Archaeal tissues undergo a multinucleate stage followed by tubulin-independent cellularization, orchestrated by active membrane tension at a critical cell size. After cellularization, tissue junction elasticity becomes akin to that of animal tissues, giving rise to two cell types-peripheral (Per) and central scutoid (Scu) cells-with distinct actin and protein glycosylation polarity patterns. Our findings highlight the potential convergent evolution of a biophysical mechanism in the emergence of multicellular systems across domains of life.

ScienceVol. 388(6742)
MRC Laboratory of Molecular Biology (GB), Leibniz Institute of Polymer Research (DE), Max Planck Institute for Biology (DE), Weizmann Institute of Science (IL), Massachusetts Institute of Technology (US), Brandeis University (US), Leibniz Institute DSMZ – German Collection of Microorganisms and Cell Cultures (DE)
Life in Land
Openalex Percentile: Top 1%
Bacterial biofilms and quorum sensing
10.48
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